TW200524253A - Heat differential power system - Google Patents

Abstract

Heat differential power systems and apparatus for powering liquid cooling systems and/or generating electrical power in a data processing system or a telecommunication system are presented. A number of embodiments are presented. In each embodiment a heat differential power system is implemented which utilizes the heat created a heat-generating component such as a microprocessor within the data processing or telecommunications system and the resulting heat differential created with other parts of the system as power to operate the heat differential power system and convert thermal energy into mechanical and/or electrical energy for powering liquid cooling system, fans, other electrical components, and/or extending the battery life in portable data processing or telecommunications system.

Description

200524253 V. Description of Invention (1) '" ----- " "

[Technical field to which the invention belongs J The present invention relates to a thermal differential power system. The present invention is December 29, 2003. η by d M m A + Nai Yi, Wu Jiao of the Jiayu provisional application No. 6 0/533, 3 63 "Stereo R r + τ ^ L ^ ^ Stirling] Power Liquid Cooling System "complete application, and this case is the application corresponding to the US application No. 10/666, 1 89 of September 10, 2003" Liquid Cooling System and its Operation " . [Previous Technology] The use of portable computing and telecommunications devices is increasing. At the core of the device is a processor and other heat-generating components, the efficiency of which is increasing, and as a result more operating power is required and more heat is generated during operation. Therefore, there is a need for more complicated and effective methods of cooling the heat generating element, such as liquid cooling. However, this liquid cooling requires some additional power to operate. When the device is used in portable mode, it always increases the demand for battery cells ^, resulting in shortened battery life. Moreover, in the portable mode, the device is usually placed on the user's lap or attached to other parts of the human body, so it is often unnecessary to increase a large amount of thermal energy due to the attachment to the human body. Another environmental problem is that the large amount of thermal energy generated by the heat generating element causes an additional large amount of waste heat. The additional thermal energy generated by the heat generating element also has other deleterious effects. For example, it can cause component failure or short circuit, and reduce the component itself and the entire service life. I 11 It is known that thermal differential power sources or engines can be used in some cases, such as the spirit engine (Sterling engine). Its operating principle is that thermal energy can transform the temple.

200524253 V. Description of the invention (2) Energy in other forms, such as mechanical or electrical energy, which specifically changes the temperature difference of more than one point, area, and position. Therefore, there is a need in this technical field to provide methods and devices for use in systems. In this technical field, there is a need to provide "methods", "cold parts, systems", especially the portable mode :; u'ir need to provide-methods and devices for extension methods and devices for saving = Ϊ:% or prolong battery life, and used to dispel ί = ΤίΓ = The processor is a small assembly space arranged in the housing of the computing system. The meter system is equipped with ^ φ ^ ^ ^ / βΐ 异 糸 系 系Such as laptop computer, stand-alone = monthly, and light-powered electrical activity. There is a need in this technical field to provide an excellent method and device for reducing the cost of cooling the heat generation = processor or other heat generation The operating ability of the components can be marked on the market: ^:, turn ', and for such devices in portable mode or [inventive content] J ^ ^ The main purpose of the present invention is to provide-cat umh-electronic system to generate power Method and equipment 7; = The power system is converting the thermal differential generated by the heat-generating element: two ..., the differential power system is used. The present invention discloses the following several power sources for the electronic system: t : The monthly system provides a thermal differential power system including a set of actuators, one or: The above heat-generating element;-a casing containing a worker lice or a rolling body 'and having a first side thermally connected to the collector, and page 8 C: \ L0G0-5 \ FIVE C0NTINENTS \ PF1292. Ptd * 200524253 V. Description of the invention (3) = The two sides are thermally connected to a cooling device or a temperature source;-the body is connected to the above thermal connection and crying; the second milk or the cooling device is randomly connected or itching, s — Sand-assisted movement towards the above-mentioned hot gas near the upper and lower sides of the f-degree source, which causes air or swelling, and causes the expansion of the first side of the container, Vf t ΐ Γ: near the above-mentioned thermal connection The cooling device or: and: the first side of the contraction occurs; a second piston, which is located in a dense j concave eight, the sealed cavity is gaseously connected to the shell, a plug for air rolling or gas expansion or contraction A counter-moving shaft is generated, which is mechanically connected to the two pistons, and the emperor receives the first-and drives the first-piston to move the wheel above, which is connected to l 4Α Z; ju ^-^ », and is connected to the side rotation shaft for Drive other devices and / or generate electricity for use in powering sub-devices. The first method to generate power within this field is = 4; the dynamic power system is in the -electronic system: a set of recognition and Ling Zhi, the thermal differential power system drives a pump /, _ To promote the liquid flow of a liquid-cooled system in the electronic system. 0 ΐ t: t. Provide a thermal differential power system in the-electronic system. ^. M and the position, the thermal differential power The system is provided with a magnet and ΐ = W. The magnet rotates and passes through the adjacent position of the induction coil to generate electricity for use by the electronic device. Provides ί Γ series-a kind of utilization-thermal differential power system in-electronic system f 5 power method and device, the thermal differential power system is provided with a magnet and a 's μ ,, and a ring', so the magnet moves relatively and passes through the proximity of the induction coil

200524253 V. Description of the invention (4) Position to generate electricity for one of the impellers in the pump to advance the body flow. The present invention provides a portable thermal differential power system in which the thermal differential power system will generate heat for use by the electronic system. The present invention is to provide a data processing system in which a differential power system produces a power generation system that generates a heat generating element for use in the electronic system. The invention provides a telecommunication system. The power system generates a power system in the system and uses a sub-system # generated by a heat generating element. The present invention provides a liquid-cooled heat conduction system. The heat conduction system is connected in parallel to receive cold liquid and liquid, and discharge the hot liquid; a hot liquid of a thermal system and cool the liquid system; and a thermal difference. The dynamic system, the fluid between the conduction systems is circulated for use by an electronic system or device. In another embodiment, a liquid electronic device is used, and a liquid data processing system for driving a liquid cooling system in an electronic system, which uses a method and device for generating power in a system, and the temperature difference generated by components Converted into a kinetic system, which uses a method and a device using a thermodynamic force, and the temperature difference generated by the thermal difference is converted into power for supply, which uses a method and a device using a thermal difference power, the thermal difference The dynamic temperature difference is converted into power for the electric system, which is provided with: one or more systems are liquidly connected to each other in series and / or absorb heat energy from a heat generating element to the exchanger, which is used to receive the heat conduction, And sending the liquid back to the heat transfer system, which is used to drive the heat exchange system and the heat ring, and / or generate additional electricity to the system, which is provided with a thermal differential power

C: \ L0G0-5 \ FIVE CONTINENTSXPF1292. Ptd page 10 200524253 I. V. Description of the invention (5) The system includes: a collector, which is thermally connected to a 7G heat generating unit; a casing, inside Contains air or gas, and: the upper side is connected to the collector 'and it has one side: to a cold section device or temperature source; a first guest ... Note connection can be used to selectively air or The gas is facing upwards: inside,: = moving, which causes the air or gas to be approaching =: the thermal connection of the cooling device or the sounding milk, or the gas is approaching-the second piston, which is located at one density = two: Contraction occurs at any time; air or gas in the shell,-gas-tight connection contraction of the sealed cavity produces a reaction, · once rotating uranium, _ Α η ^ expands to air or gas or collects the mechanical properties of the second piston To move and drive the first:; = it is connected to one or more of the first, the tongue plug moves, and he is installed and / or generates electricity to be connected to the rotating shaft to drive it in the embodiment Medium force = use of sub-devices. With-liquid cooling system, the liquid material processing system or telecommunications system. The helium liquid cooling system can be driven by a thermal differential power system. In another embodiment, _ including times, # or more than the liquid A Li Tongbei = the management system or the telecommunications system is provided-the system is driven. H ^ cold heading can be-thermal differential power [Implementation] The detailed description of the embodiment, but it is not intended to limit the book :: \ L0G0-5 \ FIVE CONTINENTSXPF1292.ptd Page 11 * 200524253 V. Description of the invention (6 ) --- Understandable: The principle and method of the present invention can be applied to data processing systems and telecommunication systems. In the present invention, the thermal energy generated by a data processing unit (such as a micro processor) is used in part or in whole to drive a liquid cooling system installed in the data processing unit. The liquid cooling method is used to solve the problems related to the performance and reliability of various data processing components. The present invention is used in various computer, communication and personalization applications. For example, the present invention can be applied to various portable or desktop personal computers, mobile phones, and personal digital assistants (PDAs). The present invention can also be applied to various heat generating elements (such as a central processing unit or a digital signal processor) in the above-mentioned system. For further explanation and description, the present invention first enumerates a central processing unit [CpU] in a portable personal computer [such as a notebook computer] for explanation. Referring to FIG. 1, a data processing system 100 is provided with a liquid cooling system 104. The liquid cooling system 104 is driven by a thermal differential power system 200 of the present invention. The data processing system is only partially disclosed in the i-th figure. It includes a housing 101 (such as a computer cabinet or cabinet), a main circuit board 105 (such as a motherboard), and one or a The above-mentioned biological element, such as a microprocessor [not shown], directly contacts a collector 103. The heat generating element, such as a microprocessor, is shown separately in Figures 2 and 5. The Lu Hai liquid cold part system 104 includes a heat exchanger 1Q2, one or more heat conduction units 108, one pump 106, and several liquid guide tubes 107, 10, and 110.忒 The thermal differential power system 200 is disclosed in detail in Figures 2 to ^, and it is located in a Haibei material processing system 100. Therefore, the housing is considered as a lower temperature.

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Page 12 200524253 V. Description of the invention

Point, and the collector 103 is regarded as a higher, sores called ^ ^ ^ flat 乂 冋 / dish degree point. The thermal differential power system 2 0 0 can also connect the rotating shaft to the crab] η β ^ Izumiura 106, to assist the liquid flow through the liquid cooling system 1 0 4 0 understandable 7 In addition to rotating the shaft, Wang Zui's 疋 can also be used to drive the pump 106, which is suitable for better specific use.

In the liquid cooling system 104, the pump pushes the coolant into the liquid pipe 110. The coolant is transported to the heat conducting soap 108 via the liquid pipe 110. The heat transfer unit 108 is connected to the heat collector 103, thereby forming a recess for the coolant to flow through. The heat collector is set in the data processing system 100, so it can directly thermally disconnect the heat generating element (such as the data, the microprocessor in the system 100). When the coolant passes through the conduction unit 108, the thermal energy generated by the heat generating element is conducted to the hotter side of the thermal differential power system 2000 through the heat collecting state 103, and flows through The heat transfer unit 108 absorbs the coolant. The collector may be made of any suitable thermally conductive material, such as copper. Therefore, the heat generating element can be cooled by the fast β conduction and absorption of thermal energy. The coolant is heated by the heat conduction of the heat generating element, exists in the heat conduction unit 108, and is transmitted to the heat exchange system 102 through the liquid pipe 10 °. The heat exchange system is a gas Or liquid heat exchanger,

It is used to cool the heated coolant. The cooled coolant is transferred to the pump 106 via the liquid guiding tube 107, and then the cooled coolant is transferred and pushed into the liquid guiding tube 110. During the operation of the data processing system 1000, the above-mentioned cycle is continuously repeated. The coolant flows to form a complete circuit 'to use the coolant regularly to absorb and dissipate the thermal energy of one or more data processing units.

C: \ LOGO-5 \ FIVE CONTINENTS \ PF1292. Ptd page 13 200524253 V. Description of the invention (8) When a data processing system 1 0 0 has one or more heat generating units to be cooled, the heat conduction unit 1 08 can be structured in several ways. For example, a housing can be used to connect the collector 103, thus forming a cavity spanning the entire length of the collector 103, and directly connecting all the heat generating elements to be cooled. Alternatively, several chambers can be located at the collector 103 and connected to each other by liquid guide tubes to transport coolant, and can be arranged in series or parallel according to the cooling requirements of the data processing system. Way to cool the heat generating element. In either case, a device is required so that the coolant enters the adjacent area of the heat generating element and is cooled. The heat exchanger 102, which is designed for a specific purpose, also contains one or more fans located in the data processing system 100 to perform the required heat transfer. The heat exchanger 10 designed according to a specific use can also be constructed to use a convection method for heat dissipation. The thermal differential power system 2000, such as a Stirling engine, operates using a thermal energy difference. The thermal differential power system 200 is shown in Figs. 2 to 6. In the first figure, the thermal differential power system 200 requires thermal energy to operate through the heat collector 103. The pump 106 is driven by the thermal differential power system 2000 and is directly connected to the thermal differential power system 200. The pump 丨 〇6 can be fixed to the thermal differential power system 2 0 ′ in various ways to meet the needs of specific applications. This fixing method can be easily accomplished by those skilled in the art. The thermal differential power system 2000 may include a Stirling engine or a similar structure. Please refer to FIG. 2, which illustrates a cross-sectional view of a thermal differential power system before 2000 according to the present invention. When the thermal differential power system 2 one of the first side 2

200524253

V. Description of the invention (9) There is a platform t blue between the two sides of the two sides, and the four dangers are $ 1. When the heat of the heat is up to [temperature difference], the thermal differential power is 20, first 20 0 can run. F requires extremely slight thermal energy difference to start and run the engine. One of the extremely precise machining of a small power system 2000 can operate at normal room temperature using radiated thermal energy. # When the thermal energy difference becomes large The thermal differential power system 2000 generates more power, which in turn causes the thermal differential power system 200 to operate at high speeds [RPMs]. The thermal differential power system 2000 includes a sealed housing 215, which A hotter side 204A, 204B and a cooler side 2 () 1 are provided. The hotter side 204A, 2048 are thermally connected to the collector 103. The cooler side 201 is thermal. The housing 1 010 connected to the data processing system 100 (as shown in Fig. 1). The hotter side 204 A, 204 B and the colder side 201 are thermally connected to the data processing system.丨 〇〇 or other points in the telecommunications system, so there is a temperature difference. However, it is better to be thermally connected to a point with sufficient temperature difference, so that The thermal differential power system generates predetermined power. The plug 202 can move back and forth between the hotter side 204A, 204B and the colder side 201 of the sealed housing 21 15 when the piston 202 is toward the colder side. When 201 moves, the air or gas in the sealed housing 215 facing the hotter sides 204A, 204B will expand. When the piston 202 moves toward the hotter sides 204A, 204B, in the sealed housing The air or gas inside 215 and facing the colder side 201 will shrink. The expansion of the air or gas will push the piston 202 away from the sealed housing 215 (or pushed out of the sealed housing 215). Another On the one hand, the contraction of the air or gas causes a vacuum-like pulse 'to move the piston 202 toward the sealed housing 215 [or into the sealed housing 215].

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忒 The piston 202 is placed in the sealed housing 2 丨 5 [chamber] without sealing, so that the air can be moved from the colder side 201 to the hotter side 204A, 204B, and vice versa . The living base 206 seals the inner diameter of the cavity 205 by a tight fit. The cavity 205 has an appropriate size and shape to suit a particular application, and it is a cylinder in FIG. 2. Alternatively, several seal rings may be used to divert the piston 206 to the inside diameter of the chamber 205. The inward and outward movement of the piston 206 is converted into a rotating action by connecting a rod body 207 and a cam disc 21. The cam disc 21 is connected to a camshaft 209. The camshaft 209 is connected to a flywheel 212, which can rotate and move a link 2 ^ 3 inward and outward. The connecting rod 213 is connected to the piston 2002 to cause the piston 200 to move back and forth between the hotter sides 204A, 204B and the colder side 201 of the sealed housing 2115. The rod body 207 is connected to the cam disc 21 and the connecting rod 213 is connected to the flywheel 2 12 to ensure the correct clock of the piston 2 0, 2 06, respectively. The heater 103 transmits thermal energy to the second side 204A of the sealed housing 215 to generate a hotter side. The first side 200m of the sealed housing 215 is a plate or other suitable device, which is in thermal contact with the housing 1101 of the data processing system 100 of FIG. 1, thereby producing the sealed housing 2 丨5 on the colder side. The bearing seat 208 is a cylinder or other suitable shape, which supports a bearing 2 11 ′ § The bearing 2 11 supports the camshaft 209. When the connecting rod 2 1 3 moves inwardly and outwardly relative to the sealed housing 2 1 5 and drives the piston 2 02 to return to or move out of the sealed housing 21 5, a bearing block 2 1 4 is used to The connecting rod 213 is supported and hermetically sealed. It is worth noting that the rod body 207 and the connecting rod 213 must be able to bend slightly or be elastic when they move in their respective circles during operation. can

200524253

V. Description of the invention (11) The elasticity is obtained by inserting an elastic joint or using an appropriate elastic material to construct the rod scale 2 07 and the connecting rod 2 1 3, which are easily completed by those familiar with the technology. A heat generating element 216 is a microprocessor of the data processing system. One or more heat generating elements 2 1 6 may be thermally connected to the collector ^ 03. The thermal energy generated by the heat generating element 216 is transferred to the heat collector 103, and is thermally connected to the hotter sides 204A, 204b of the sealed housing 215. A heat transfer system 108 is shown in Figure 2. It is located on the heat collector 丨 0 3 to form a cavity through which the coolant can flow and the heat generating element 2 丨 6 Its adjacent location. Please refer to FIG. 3 ′ for a schematic diagram of the thermal differential power system 2000 and the flywheel 212 of FIG. 2. Figure 3 reveals the thermal differential power system 2000, and also shows the colder side 201, the hotter side 204A, and the piston 202 of the sealed housing 215, which are used to move the gas in the sealed housing 215 . In Fig. 3, the bearing housing 208 is a cylinder or other suitable shape, which supports a bearing, and the bearing supports the camshaft 209. The flywheel 2 1 2 is connected to the camshaft 209. The connecting rod 213 is connected to the flywheel 212 and the piston 202. When the connecting rod 213 moves inwardly and outwardly relative to the sealed housing 215 [chamber], the bearing block 214 supports and hermetically seals the sealed housing 215. Please refer to FIG. 4, which discloses a side view of a camshaft 209 of the thermal differential power system 2000. In Fig. 4, the sealed housing 215, the colder side 201, the hotter sides 204A, 204B, the piston 202, the bearing seat 208, the camshaft 209, and the flywheel 212 are similar to Fig. 3. In FIG. 4, the piston 206 is shown as having a cavity 2 05 for gas-tightly sealing the piston 2 06 and the sealing shell.

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The body 215 and the rod body 20 7 [link rod] are used to switch the piston 206 to move inward or outward so as to rotate and push the cam disc 21.

Please refer to FIG. 5 for a thermal differential power 200 similar to that of FIG. 2. In Fig. 5, the main circuit board 105 of Fig. 1, such as the motherboard γ, is provided with a heat generating element 2 1 6 such as a microprocessor. The heat collector is provided on the heat generating element 2 16 and thermally conducts thermal energy to the hotter side of the sealed case 215 of the thermal differential power system X system 200, 2048 people, and 2048 persons. Figure 5 also shows the edge of pump 106 in Figure 1. Within the pump 106, an impeller 535 is provided to circulate liquid through the cooling system. A rotating link 536 is connected to the cam shaft 209 of the thermal differential power system 200, and is also connected to the impeller 535 for rotating the impeller 535 in the pump 106. It can be understood that the rotating link 536 may be a separate member connected to the cam shaft 209, or may be an extended end of the cam shaft 209. As shown in FIG. 6, a side view of the flywheel 21 2 of the thermal differential power system 20 () of FIG. 3 is disclosed. A plurality of magnets 650A and 650B are fixed on the flywheel 2 1 2. Several coils of 6 5 1A, 6 51 B wires are formed into turns, which form a complete circuit, so the current can be entered by a conductor 652 people, and then the coils 651 A, 65 1B are continuously wound, and then by another A conductor 652B is derived. The wires shown by the conductors 652A and 652B form the terminals of the coils 651A and 651β. The magnets 650A and 650B rotate with the flywheel 212. When each of the magnets 650A, 650B passes through the coils 651A, 651B, a minute current pulse is generated. It can be understood that several magnets 6504, 65β and coils 651A, 651B can be looped on any rotating element, which is not limited by the rotating element in FIG. 6. Similarly, it can be understood that the flywheel 2 1 2 may not use the magnetic

C: \ L0G0-5 \ FIVE CONTINENTS \ PF1292.ptd Page 18 200524253 V. Description of the invention (13) Combination of iron 6 5 0A, 6 5 0B and coils 651A, 651B, which can use any type that can be connected to the cam Device for shaft 20 9. Please refer to FIG. 7, which discloses a side view of the flywheel 2 1 2 of the thermal differential power system 200 of FIG. 3. The coils 6 5 1 A and 6 5 1 B are fixed on the flywheel 212 and used to rotate and pass through the fixed magnets 650A and 650B. The flywheel 212 is provided with a commutator 6 59 surface, which is fixed on the cam disc 210, and the electric energy generated by the rotating coils 6 5 1A, 6 5 1 B passes through the conductors 6 5 2 A, 6 5 2 B flows to the commutator surface 6 5 9. This electric energy then passes through a plurality of elastic brushes 670A, 670B, and is derived through a plurality of conductors 658A, 658B. The commutator 6 5 9 is fixed on the outer diameter of the cam disc 21 0. It is understood that various types of commutators 6 5 9 can be used to suit a particular application. Moreover, the flywheel 2 1 2 can be replaced by a linear induction generator, which is provided with a plurality of magnets and coils and can move linearly relative to each other. The advantage of this type of power generation device is that it is pluggable

And the appropriate set of magnets and coils, 651B and magnets 650A, 650B set the flywheel. It can be understood that, when the specific operation is reversed, the arrangement shown in FIGS. 6 and 7 uses a small amount of power obtained by the thermal differential power system 200. The power conversion is beneficial to the portable battery-operated system to extend the operating time of the portable system. Similarly, the power generated by the device can be used to assist in driving one or more fans' for cooling or dissipating the heat energy of a heat exchanger for driving an electric pump of a liquid cooling system, and / or as Data processing system power. Understandable is more

The same structure can also be used-to rotate

200524253 'V. Description of the invention (14) Brake for slowing, maintaining or stopping the speed of the flywheel. Although the present invention has been disclosed in detail using preferred embodiments, it is not intended to limit the present invention. Any person skilled in the art can make various changes and modifications without departing from the spirit and scope of the present invention. The scope of protection shall be determined by the scope of the attached patent application.

C: \ L0G0-5 \ FIVE CONTINENTSNPF1292.ptd Page 20 200524253 Simple illustration of the drawing [Simplified illustration of the drawing] The illustration of the present invention in a data processing system-the liquid cooling system is not intended. Fig. 2 is a cross-sectional view of a system of the present invention in a data processing system. ... left cut view knife Figure 3: Another cross-sectional view of a thermal differential power system in a data processing system of the present invention. Figure 4: Another cross-sectional view of a thermal differential power system in a data processing system of the present invention. ΓΛ: A cross-sectional view of a pump connected to a liquid cooling system of a thermal differential powertrain in a data processing system of the present invention. αThe present invention is a thermal differential powertrain in a data processing system

,,, μ㊣; #processing system is provided with a flywheel with a magnet and a #coil 'adjacent to the magnet, a cross-sectional view that generates electricity when the flywheel and magnet rotate. "The invention" is a thermal differential power system in a material and material processing system. The data processing system is provided with a flywheel having an induction coil and a magnet adjacent to a magnet. Electric power is generated when the flywheel and the induction coil rotate. Cutaway view. σ [Description of main component symbols] 100 Data processing system 101 Housing 102 Heat exchanger 103 Heat collector 104 Liquid cooling system 105 Main circuit board 106 Pump 107 Conduit

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Brief description of the drawing 108 Thermal conduction unit 109 Catheter 110 Catheter 200 Thermal differential power system 201 Colder side 202 Piston 204A Hotter side 204B Hotter side 205 Chamber 206 Piston 207 Rod body 208 Bearing block 209 Camshaft 210 Cam disc 211 bearing 212 flywheel 213 connecting rod 214 bearing block 215 sealed housing 216 heating element 535 impeller 536 rotating link 650A magnet 650B magnet_ 6 5 1 A coil 651B coil conductor 652B conductor 659 commutator 670A elastic brush 670B 658B Flexible brush conductor 658A Conductor C: \ L0G0-5 \ FIVE CONTINENTS \ PF1292.ptd Page 22

Claims (1)

200524253 VI. Scope of patent application 1. 'A thermal differential service β β ^ ^ Power is not uniform, it is used in an electronic system 蜞 gan A A collector, which is connected to the M freeze, which includes:; electronic system Inside at least-the heat generating element is a casing, which has an M ^ ^ c body inside, and has a first side and 刼 k to the bismuth in the electronic system wire. The heat collector; and its plug, which is located in the housing, is used to select the pendulum, M: 6 ^ π; toward the second side of the heat collector that is thermally connected above: health = body i ί ΐ ί ΐ two sides Swelling occurs; and ΐ is moved selectively: l: ,, the -side movement connected to the colder point / area, the rolled body shrinks when it approaches the second side; 丨 a second piston, It is located in the casing and is adjacent to the casing. The ~ second piston can respond to the expansion and contraction of gas, and = = the first piston;伢 Master the first piston. The thermal differential power system according to item 1 of the patent application scope, wherein the air system is atmospheric air. The thermal differential power system according to item 1 of the scope of patent application, wherein the device for connecting the piston comprises: a rotating shaft that is rotatable; at least one flywheel connected to the rotating shaft; a first arm A rod that connects the flywheel and the second piston to receive the kinetic energy of the first piston and rotate the rotating shaft; and a device that is connected to the two pistons that receives the mechanical kinetic energy of the second piston and Kinetic energy is provided to the first piston 2 by the main master 奄 4ιϊ Surname οε »from · 丄, 1 X, ^. Ash 3 C: \ L0G0-5 \ FIVE CONTINENTSXPF1292. Ptd page 23 200524253 6. Application scope of patent one second An arm is connected to the flywheel and the first piston so as to be lifted to the first piston. 4. The thermal differential power system according to item 3 of the scope of the patent application, wherein the flywheel system connected to the rotating shaft is located in a pump as an impeller for driving liquid to circulate. 5 The thermal differential power system according to item 3 of the scope of the patent application, wherein at least one rotating flywheel system is connected to the rotating shaft, and each flywheel is provided with at least one magnet and at least one induction coil next to each other to generate electricity, For use with this electronic device. A portable electronic system is provided with at least one thermal differential power system described in item 3 of the scope of patent application. 7 A data processing system provided with at least one thermal differential power system described in item 3 of the scope of patent application. A telecommunication system is provided with at least one thermal differential power system described in item 3 of the scope of patent application. 9. A cooling system comprising: at least one heat conduction system for receiving cold liquid and discharging the hot liquid; a heat exchanger in liquid communication with the heat conduction system, the heat exchanger for receiving the hot liquid and generating Cold liquid; and a thermal differential power system for driving the liquid between the heat exchange system and the heat conduction system to circulate. '10. The cooling system according to item 1 of the scope of patent application, wherein the thermal differential power system comprises: a heat collector connected to at least one heat generating element; C: \ L0G0-5 \ FIVE CONTINENTS \ PF1292. Ptd page 24 200524253 6. Application scope of patents A casing to an electric appliance has a first body upwards and a body moves upwards, a second second life The first energy of a device is based on the application / departure of the atmosphere. ′ Its internal subsystem is on the second side of the piston. The thermal properties are close to the thermal properties described above, which cause the gas piston, the plug can be plugged; and, it is connected, and will be patented air. The shaft of the patented Vanser, the flywheel, the boom, the kinetic energy of at least one of the first one of the piston and the second boom, containing a gas is hotter than the surface, it is located on the connection to the second side, and the body is connected to it. The 10th housing package located at the 10th perimeter of the mechanical moving enclosure can be connected to its connection, and its connection body, and has a collector cold connection to the collector housing, the collector When the first side is expanded, the colder point is near the second housing, and the first side is expanded and contracted to thermally connect a point / area and its heater; A It is used to selectively separate the two sides of the gas Movement, causing inflation; and selectively contracting the first side of the air level / area when sideways; and adjoining the casing, which generates a response to drive the two pistons, and its function of receiving the second piston provides To the first piston. The cooling system described in the item, wherein the cooling system described in the gas item includes: moving; to the rotating shaft; the flywheel and the second piston move the rotating shaft; and the flywheel and the first piston are connected to receive the first In order to provide kinetic energy 13 to the cooling system according to item 2 of the patent application range, wherein the above-mentioned continuous piston C: \ L0G0-5 \ FIVE CONTINENTSXPF1292. Ptd page 25 200524253 ____ VI. Scope of patent application, ^ The flywheel system connected to the rotating shaft is located in the pump, as /, the driving liquid is cycled in the cooling system. flow. Zhongcheng Shao—14. According to one of the few magnets described in the scope of patent application No. 12, the rotating flywheel system is connected to the rotating shaft 'and the valley wheel 5 and at least one induction coil is adjacent to each other to generate electricity.妙 埶 .1 5. The cooling system according to item 14 of the scope of the patent application 'wherein, the dynamic system drives at least one fan ° 16. The cooling system according to item 14 of the scope of patent application, where The thermal differential power system provides power to a system using the cooling system. 17. A portable electronic system provided with at least one cooling system as described in item 9 of the scope of patent application. 18. A portable electronic system, which is provided with at least-cooling system 'in the patent application No. 丨 4 to provide power to extend the battery life of the subsystem. 19. A data processing system, which is provided with at least one cooling system of the scope of application for patent No. 9; The said 20 is a telecommunication system, which is provided with the 9th least one cooling system in the scope of patent application. Up to C: \ L0G0-5 \ FIVE CONTINENTS \ PF1292. Ptd